// You can't specify a boundary, intrastroke,
// by using the Tablet SDK's NearestPoint method.
public int FindClosestPointTo(Point p, int start, int finish)
{
FcptImpl fi = new FcptImpl(stroke,p);
GoldenSectionDescender.F f = new GoldenSectionDescender.F(fi.F);
GoldenSectionDescender gsd = new GoldenSectionDescender(f);
return MathEx.Round(gsd.FindMinimumWithin(start,finish,1));
}
// You can't specify a boundary, intrastroke,
// by using the Tablet SDK's NearestPoint method.
public int FindClosestPointTo(Point p, int start, int finish)
{
FcptImpl fi = new FcptImpl(stroke, p);
GoldenSectionDescender.F f = new GoldenSectionDescender.F(fi.F);
GoldenSectionDescender gsd = new GoldenSectionDescender(f);
return(MathEx.Round(gsd.FindMinimumWithin(start, finish, 1)));
}
private void QuantizeSegmentOrientations()
{
// Find the optimal rotation angle, to minimize segments' orientation from 0/30/45/60.
Point center = Geometry.EstimatePolygonCentroid(idealverts);
QsoImpl fi = new QsoImpl(idealverts, center);
GoldenSectionDescender.F f = new GoldenSectionDescender.F(fi.F);
GoldenSectionDescender gsd = new GoldenSectionDescender(f);
double tolerance = 0.01;
double optangle = gsd.FindMinimumWithin(-12.0, +12.0, tolerance);
// Now rotate them!
using (Matrix m = new Matrix())
{
m.RotateAt((float)optangle, new PointF(center.X, center.Y));
m.TransformPoints(idealverts);
}
}
private void QuantizeSegmentOrientations()
{
// Find the optimal rotation angle, to minimize segments' orientation from 0/30/45/60.
Point center = Geometry.EstimatePolygonCentroid(idealverts);
QsoImpl fi = new QsoImpl(idealverts,center);
GoldenSectionDescender.F f = new GoldenSectionDescender.F(fi.F);
GoldenSectionDescender gsd = new GoldenSectionDescender(f);
double tolerance = 0.01;
double optangle = gsd.FindMinimumWithin(-12.0,+12.0,tolerance);
// Now rotate them!
using (Matrix m = new Matrix())
{
m.RotateAt((float)optangle, new PointF(center.X,center.Y));
m.TransformPoints(idealverts);
}
}
